Jie Cai 
- (2023): Research on a Data-Driven Modeling Method for Precast Concrete Balcony Components. In: Buildings, v. 14, n. 1 (31 December 2023).
- (2023): Autonomous recognition and positioning of shield segments based on red, green, blue and depth information. In: Automation in Construction, v. 146 (February 2023).
- (2022): A whole building life-cycle assessment methodology and its application for carbon footprint analysis of U.S. commercial buildings. In: Journal of Building Performance Simulation, v. 16, n. 1 (September 2022).
- (2022): Modelling and mitigating lifetime impact of building demand responsive control of heating, ventilation and air-conditioning systems. In: Journal of Building Performance Simulation, v. 15, n. 6 (4 August 2022).
- (2021): Regional standardized particle size distributions for developing a Chinese filter testing standard used in building ventilation. In: Journal of Building Engineering, v. 44 (December 2021).
- (2016): An inverse hygrothermal model for multi-zone buildings. In: Journal of Building Performance Simulation, v. 9, n. 5 (January 2016).
- (2020): Determination of the Installation Time of Secondary Liner during Excavation of Large Cross-Section Double-Arch Tunnels. In: Advances in Civil Engineering, v. 2020 (January 2020).
- (2019): Assessments of demand response potential in small commercial buildings across the United States. In: Science and Technology for the Built Environment, v. 25, n. 10 (26 November 2019).
- (2015): Dynamic programming based approaches to optimal rooftop unit coordination. In: Science and Technology for the Built Environment, v. 21, n. 6 (August 2015).
- (2015): A generalized control heuristic and simplified model predictive control strategy for direct-expansion air-conditioning systems. In: Science and Technology for the Built Environment, v. 21, n. 6 (August 2015).
- (2016): General approaches for determining the savings potential of optimal control for cooling in commercial buildings having both energy and demand charges. In: Science and Technology for the Built Environment, v. 22, n. 6 (August 2016).
- (2016): A general multi-agent control approach for building energy system optimization. In: Energy and Buildings, v. 127 (September 2016).
- (2018): Assessments of variable-speed equipment for packaged rooftop units (RTUs) in the United States. In: Energy and Buildings, v. 164 (April 2018).
- (2018): System identification for building thermal systems under the presence of unmeasured disturbances in closed loop operation: Theoretical analysis and application. In: Energy and Buildings, v. 167 (May 2018).
- (2019): A regulation capacity reset strategy for HVAC frequency regulation control. In: Energy and Buildings, v. 185 (February 2019).
- (2019): Laboratory-based assessment of HVAC equipment for power grid frequency regulation: Methods, regulation performance, economics, indoor comfort and energy efficiency. In: Energy and Buildings, v. 185 (February 2019).
- (2020): Investigation of the torsional effects on the lateral buckling of a pipe-like beam resting on the ground under axial compression. In: International Journal of Structural Stability and Dynamics, v. 20, n. 9 (August 2020).
- (2016): System identification for building thermal systems under the presence of unmeasured disturbances in closed loop operation: Lumped disturbance modeling approach. In: Building and Environment, v. 107 (October 2016).
- (2019): The enhancement of the flame retardance of bamboo fibre/HDPE composites: Cerium doped H2Ti2O5·H2O nanotubes effects. In: Construction and Building Materials, v. 201 (March 2019).
- (2016): Enhanced the weatherability of bamboo fiber-based outdoor building decoration materials by rutile nano-TiO 2. In: Construction and Building Materials, v. 114 (July 2016).
- (2018): Residual ultimate strength of damaged seamless metallic pipelines with combined dent and metal loss. In: Marine Structures, v. 61 (September 2018).
- (2018): Residual ultimate strength of damaged seamless metallic pipelines with metal loss. In: Marine Structures, v. 58 (March 2018).
Structurae cooperates with
